Scintillation counter

Related lectures (32)

Page 3 of 4

Explains the principles of photomultiplier tubes and their applications in optical detection, focusing on gain, efficiency, and signal amplification.

Explores x-ray tomography principles, including generation, interaction with matter, detection methods, and practical examples.

Covers the photoelectric effect, electron emission, light quantization, and the Compton effect.

Explores pulse techniques for signal measurements and noise reduction methods like gated integration and boxcar averaging.

Explores the combination of systems for radiation detection, from light collection to signal amplification using various semiconductor detectors.

Discusses the principles and techniques of single photon detection using photomultiplier tubes and intensified CCDs.

Explores radiation detection principles, semiconductor detectors, light collection methods, and signal processing.

Explores x-ray tomography techniques, covering sources, optics, detectors, and sample considerations.

Explores particle detection using scintillators, cloud chambers, and wire chambers for various applications.

Explores the quantum properties of photons, covering their wave-particle duality and implications in various experiments.